使用硬件加速器的快速memset()实现:扩展抽象

K. Pusukuri, R. Gardner, Jared C. Smolens
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引用次数: 0

摘要

具有大缓存和大内存的多核系统已经变得无处不在。它们为最大化大内存应用程序(如内存数据库、键值存储和图形分析)的性能提供了一个有吸引力的机会。然而,这些大内存应用程序需要许多虚拟到物理地址的转换,这会增加TLB失误率并损害性能。为了解决这个问题,现代硬件和操作系统引入了对大页面的支持。例如,在SPARC M7上,Linux支持8MB、2GB和16GB的大页面(除了默认的8KB之外)。同样,Linux在Intel Xeon (E5-2630)平台上支持2MB和1GB的大页面。
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An implementation of fast memset() using hardware accelerators: extended abstract
Multicore systems with large caches and huge main memories have become ubiquitous. They provide an attractive opportunity to maximize performance of big-memory applications such as in-memory databases, key-value stores, and graph analytics. However, these big-memory applications require many virtual-to-physical address translations, which increase TLB miss rate and hurt performance. To address this problem, modern hardware and OSes introduced support for huge pages. For example, on SPARC M7, Linux supports 8MB, 2GB, and 16GB huge pages (in addition to the default 8KB). Likewise, Linux supports 2MB and 1GB huge pages on Intel Xeon (E5-2630) platforms.
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